ON A SYSTEM OF DIFFERENCE EQUATIONS DEFINED BY THE CONTINUOUS AND STRICTLY MONOTONE FUNCTIONS

In this paper, we solve the following difference equations system <p class="disp_formula">$ \begin{align*} \begin{cases} \omega_{n+1}=g^{-1}\left( g\left( \omega_{n}\right) \dfrac{\zeta_{1}h\left( \vartheta_{n}\right)+\eta_{1}h\left( \vartheta_{n-1}\right) }{\mu_{1}h\left( \vartheta_{n}\right)+\xi_{1}h\left( \vartheta_{n-1}\right)}\right), \\ \vartheta_{n+1}=h^{-1}\left( h\left( \vartheta_{n}\right) \dfrac{\zeta_{2}g\left( \omega_{n}\right)+\eta_{2}g\left( \omega_{n-1}\right) }{\mu_{2}g\left( \omega_{n}\right)+\xi_{2}g\left( \omega_{n-1}\right)}\right) , \end{cases} n\in \mathbb{N}_{0}, \end{align*} $ where the coefficients $ \mu_{k}^2+\xi_{k}^2\neq0 $, $ \zeta_{k} $, $ \eta_{k} $, $ \mu_{k} $, $ \xi_{k} $, for $ k\in\{1,2\} $ are real numbers, the initial values $ \omega_{-j} $, $ \vartheta_{-j} $, for $ j\in\{0,1\} $ are real numbers, $ g $ and $ h $ are continuous and strictly monotone functions, $ g\left( \mathbb{R}\right) =\mathbb{R} $, $ h\left( \mathbb{R}\right) =\mathbb{R} $, $ g\left( 0\right) =0 $, $ h\left( 0\right) =0 $, in explicit form depending on whether or not the parameters are equal to $ 0 $.

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Publication Details

Journal
Journal of Applied Analysis & Computation
Published
2025-01-01
DOI
https://doi.org/10.11948/20250012
Primary Topic
Mathematical and Theoretical Epidemiology and Ecology Models
Type
article
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article

ON A SYSTEM OF DIFFERENCE EQUATIONS DEFINED BY THE CONTINUOUS AND STRICTLY MONOTONE FUNCTIONS

Yasin Yazlık, Merve Kara, Mensure Şen
Journal of Applied Analysis & Computation
Mathematical and Theoretical Epidemiology and Ecology Models
article

ON A SYSTEM OF DIFFERENCE EQUATIONS DEFINED BY THE CONTINUOUS AND STRICTLY MONOTONE FUNCTIONS

Yasin Yazlık, Merve Kara, Mensure Şen
article en

Abstract

In this paper, we solve the following difference equations system <p class="disp_formula">$ \begin{align*} \begin{cases} \omega_{n+1}=g^{-1}\left( g\left( \omega_{n}\right) \dfrac{\zeta_{1}h\left( \vartheta_{n}\right)+\eta_{1}h\left( \vartheta_{n-1}\right) }{\mu_{1}h\left( \vartheta_{n}\right)+\xi_{1}h\left( \vartheta_{n-1}\right)}\right), \\ \vartheta_{n+1}=h^{-1}\left( h\left( \vartheta_{n}\right) \dfrac{\zeta_{2}g\left( \omega_{n}\right)+\eta_{2}g\left( \omega_{n-1}\right) }{\mu_{2}g\left( \omega_{n}\right)+\xi_{2}g\left( \omega_{n-1}\right)}\right) , \end{cases} n\in \mathbb{N}_{0}, \end{align*} $ where the coefficients $ \mu_{k}^2+\xi_{k}^2\neq0 $, $ \zeta_{k} $, $ \eta_{k} $, $ \mu_{k} $, $ \xi_{k} $, for $ k\in\{1,2\} $ are real numbers, the initial values $ \omega_{-j} $, $ \vartheta_{-j} $, for $ j\in\{0,1\} $ are real numbers, $ g $ and $ h $ are continuous and strictly monotone functions, $ g\left( \mathbb{R}\right) =\mathbb{R} $, $ h\left( \mathbb{R}\right) =\mathbb{R} $, $ g\left( 0\right) =0 $, $ h\left( 0\right) =0 $, in explicit form depending on whether or not the parameters are equal to $ 0 $.

Journal of Applied Analysis & ComputationVol. 15(6)
Reduced inequalities
Openalex Percentile: Top 79%
Mathematical and Theoretical Epidemiology and Ecology Models
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